Smart active tyre pressure optimising system

ABSTRACT

Smart Active Tyre Pressure Optimising System [TPOS]  102  is a highly time sensitive design and technique that acts instantaneously in sensing and controlling the tire pressure particularly in imminent and inevitable critical driving situations to reduce emergency &amp; high speed breaking distance, mitigate—loss of traction, hydroplaning, roll over, loss of stability, over &amp; under steering, break failure, loss of control due to puncture by smartly sensing, perform context aware computing and directing the Tyre Pressure Control Units [TPCU]  104  to instantaneously control the tyre pressure in right time with right pressure on right tyres thereby actively controlling the footprint and sidewall deformation rate to enhance traction &amp; stability simultaneously sustaining drivability or steerability ultimately to avoid or reduce the impact of collusion and overcome or mitigate critical situations for protecting the vehicles, occupants, pedestrians and other objects around or on the way; also according to design, configurations and scenarios the system instantaneously optimises the tyre pressure on all tyres for further safe driving till next restoration else restores the pressure to optimum preset value utilising inbuilt reservoir or other external restoration systems immediately after the vehicle overcomes the critical situation to continue with safe and comfortable driving. In critical situations TPOS performs sensing, pre computing, current computing for controlling the tire pressure during critical situation, post computing to optimise tire pressure after overcoming accordingly. TPOS  102  utilise smart and adaptive closed loop processing algorithm with predetermined and tested lookup table to instantaneously check and compare the effects between predetermined and tested real world scenarios to the actual real world scenarios for actively sensing, computing and controlling the tire pressure accordingly to mitigate the critical situations. The controlling of tyre pressure is computed mainly based on parameters comprising of sensor system, vehicle safety and stability systems, nature of breaking &amp; break force distribution, tires upper &amp; lower cut-off pressure values, sensing reservoirs and tires internal &amp; external pressure, temperature, moisture, humidity, wheel &amp; tire specifications, vehicle &amp; wheel speed, acceleration &amp; deceleration, vehicle orientation &amp; axial rotation, transverse motion &amp; lateral acceleration, tires position or angle of attack, load &amp; torque distribution, tire traction, steering position, cornering effects, change in Centre of gravity, over &amp; under steering, hydroplaning, sensing road conditions, etc and to further enhance the efficiency, the system interoperates with vehicles existing safety and stability systems like ABS, EBD, ESC, TCS, Rollover mitigation systems, ECU, BA, Precrash systems, suspension &amp; vertical dynamics, radar assisted auto breaking, cruise control system, aerodynamics &amp; airbrakes etc. Other aspects of present invention are controlling the tire temperature according to environmental temperature, moisture and humidity thereby to enhance traction and vary tire pressure according to change in centre of gravity &amp; load, driving modes—comfort, standard and sports modes.

FIELD OF INVENTION

The present invention is related to automobile or transportation domain and more particularly into vehicles utilising pneumatic tires.

BACKGROUND OF INVENTION

Tire pressure plays an important role in vehicle traction and stability. Generally the vehicles tyre pressure are manually set to an optimum value or tire pressure control system works to maintain set pressure value to enhance driving on various terrains, better mileage, enhance driving comfort, reduced—tyre noise, friction, wear and tear etc. But maintaining these optimum or set pressure [fixed value] values constantly irrespective of the critical situations [which won't vary tire pressure instantaneously according to critical situations] in turn doesn't helps in enhancing the vehicles available traction and stability in critical situation. For example in critical situations these constantly maintained optimum or set tyre pressure values only sustains the available traction & stability of corresponding pressure value which won't help in improving traction and stability [rolling resistance, friction etc] thereby to reducing emergency breaking distance, won't help in mitigating hydroplaning [by increasing tire thread depth to deflect more water outward thereby helping in clearing water], wont aid to mitigate roll over or loss of vehicle stability by controlling tyre pressure [for vehicle moving in highly uneven, slope surfaces, vehicles experience extreme cornering force etc where the vehicle tends to move beyond available stability systems limits that can leads to loss of stability], doesn't mitigate over and under steering [by controlling tires cornering stiffness, controlling tire deformation rate, contact patch or foot print to increase traction, mitigate positive and negative gradient to sustain a neutral gradient] etc. The ABS and TCS can prevent loss of traction from happening by limiting power to the wheels. ESC detects loss of steering control and automatically applies the brakes [selective wheel braking, which depends in turn on road contact] to helps in steering the vehicle where the driver intends to go. But in critical situations these system cannot increase the limits of much needed available tire traction or stability and is used only to decrease the effect of driver error or compensate for a driver's inability to react quickly enough to wheel slip. Braking is automatically applied to wheels individually, such as the outer front wheel to counter over steer or the inner rear wheel to counter under steer. Some ESC systems also reduce engine power until control is regained. So ESC can help to regain the control but cannot mitigate aquaplaning. The ESC works with the available traction [between the tires and road] and is not so effective in severe hydroplaning scenario [as the wheels that ESC would use to correct a skid may not even initially be in contact with the road, reducing its effectiveness]. Aquaplane or hydroplaning occurs when the tyre's [grooves] cannot remove water quickly enough which in turn leads to loss contact with the road surface and skims across the top of the standing water. Hydroplaning happens more easily with lack of tyre tread depth, under inflation which causes a tyre to deflect water inward thereby raising the tyre centre and preventing the treads from clearing water.

There are some tyre pressure control systems that only works to maintain optimum or set tyre pressure value throughout the period of time [that won't change according to critical situations] which only helps to enhance driving on various terrains and won't sense critical situations or instantly vary or control the maintained tire pressure thereby to aid the vehicle to overcome the critical situations like—emergency breaking, hydroplaning, loss of traction, loss of stability or roll over mitigation, over and under steering mitigation etc. There are scenarios where the fixed optimum and preset terrain based tyre pressure control system [used enhancing driving in various terrains which maintain constant pressure irrespective of critical situation like hydroplaning] that won't helps in mitigating hydroplaning. During emergency breaking the tyre traction can also vary based on contamination between tyres and road surfaces [contact area] like layer of water, sand etc which can causes significant loss of traction and the tire pressure control system won't works in sensing and mitigating these scenarios. More particularly the slow processing and functioning speed of the other TPCS systems won't work or help in critical situations as these scenarios are highly time sensitive that requires instant processing and functioning. Also other systems that utilise vehicles with integrated or inbuilt compressor and similar systems posse lot of complications as it consumes the valuable space and power also adding extra weight to the vehicle which makes the system more expensive, complex to—operate, integrate, maintain and service that prevents it from large-scale implementation.

OBJECTIVE OF INVENTION

Objective of the invention is to enhance vehicle traction and stability in critical driving situations like emergency breaking distance, avoid or mitigate—loss of traction, hydroplaning, roll over or loss of stability, inevitable collusion, over and under steering through instantaneously controlling tire pressure ultimately to protect the vehicle, occupants, pedestrians and other things around or on the way by preventing or reducing the impact of collusion.

SUMMARY

To address the issues with optimally maintaining tire pressure constantly all over the time and other non time sensitive tire pressure control systems, the present invention provides a smart active tire pressure optimising system that instantaneously works in critical situations by sensing, computing and controlling the tire pressure on right tires with right pressure in right time according to critical situations thereby to enhance the available traction and stability. The SATPOS aids in enhancing and effectively optimising vehicles overall performance in safety, stability, control, speed, mileage, reducing tire wear & tear and impact on environment. The critical situations won't occur always but can occur at any time as a surprise and the present system constantly monitors and equipped to face the challenges placed ahead thereby helps in overcoming or mitigating the critical driving situation ultimately protecting the passengers, pedestrians, vehicles and other objects in and around the way. Even an inch to a meter distance is crucial in extreme situations to avoid, mitigate and reduce the impact of collusion that in turn helps in saving valuable lives and property. The TPOS 102 system performs active sensing, pre computing & set ready to control the tire pressure prior to critical situation, current computing for controlling the tire pressure during critical situation, post computing to optimise tire pressure after overcoming the critical situation ultimately to overcome and mitigate the critical situations. The TPOS mainly controls the tire pressure between upper and lower cut-off tire pressure values with corresponding change in vehicles load and centre of gravity thereby mitigating critical situations simultaneously preventing over and under inflation ultimately to sustain stability. TPOS utilise smart and adaptive closed loop processing algorithm with predetermined and tested lookup table to instantaneously check and compare the effects between predetermined and tested real world scenarios to the actual real world scenarios for actively sensing, computing and controlling the tire pressure in right time on right tyres with right pressure thereby to mitigate the critical situations. Besides alerting the driver regarding the controlling of tire pressure the present system also optimises the tire pressure once the vehicle overcomes the critical situation to continue with optimal driving. Since various parameters and multiple critical situations are simultaneously taken into account by TOPS for computation, the systems algorithm smartly sense, prioritise & balance between to achieve an optimised solution. The present system works in standalone mode based on sensor system parameters or in addition interoperate with vehicles safety and stability systems to further enhance the efficiency of ABS, EBD, ESC, TCS, BA, suspension system, roll over mitigation system, automotive aerodynamics & airbrakes etc thereby enhancing the overall performance in sustaining traction and stability. As most of the parameters utilised by the system are already available with vehicles; which in turn aids in easy implementation of the system. TPOS in addition to instantaneously varying and controlling the tyre pressure in critical situations also immediately optimises or restores the tyre pressure if difference or variation in tires pressure is detected from the optimum or preset pressure value once the vehicle overcomes the critical situations to continue with safe & comfortable driving with enhanced stability, mileage and to reduce tyre noise. According to design, configuration and scenarios the present system either controls the pressure by releasing the fillers to atmosphere while maintaining the tires lower cut off threshold pressure value to sustain stability and instantaneously optimise the pressure on all tyres for further safe driving [till next gas station or filling] until restoration or else restores the pressure to optimum pre set value utilising in inbuilt reservoir or other external restoration systems immediately after the vehicle overcomes critical situation to continue with comfortable driving. The TPOS works in standalone mode or interoperate with vehicles safety and stability systems or its combinations according to design, configurations and scenarios. Either dedicated hard or soft or its combinations TPOS switches are utilised for manually activate TOPS. The following aspects are flexible as either basic to higher end, one or multiple or combination of following aspects are utilised according to design, configurations, requirements and scenarios.

According to one aspect of present invention the TPOS instantaneously works in critical situation to reduce high speed and emergency breaking distance by actively sensing, computing and controlling the tire pressure to some extent from optimum or existing value to right pressure on right tires in right time ultimately to increase the rolling resistance and friction thereby instantaneously improving traction while sustaining stability. The system maintaining the tires upper & lower cut-off threshold pressure values to prevent over inflation and under inflation or tire deformation.

According to another aspect of present invention the TPOS instantaneously mitigates the extreme loss of traction, skid and wheels spin on either one or multiple wheel tires by actively sensing, computing and controlling the tire pressure between or corresponding tires in right time with right pressure thereby to restore and mitigate loss of traction.

According to another aspect of present invention the TPOS system instantaneously mitigates hydroplaning or aquaplaning by actively sensing, computing and controlling [increasing] the tire pressure on right tires with right pressure on right time while maintaining the tires upper cut-off threshold value to reduce the surface area of tire to avoid water deflected inwards, increasing the tires grooves & thread depth to deflect more water outward thereby helping in clearing water which in turn prevents the rising of tires thereby to restoring traction and mitigating aquaplaning.

According to another aspect of present invention the TPOS instantaneously works to mitigate over and under steering by actively sensing, computing and controlling the tire pressure in right time with right pressure on right tires thereby controlling thread depth, enhancing traction, controlling contact patch or foot print, controlling tires cornering stiffness and controlling tire deformation thereby mitigating positive and negative gradient to sustain zero or neutral gradient.

According to another aspect of present invention the TPOS instantaneously mitigate roll over and loss of stability by actively sensing the vehicle [moving with hard cornering and in surface that are—highly uneven, inclined, slope etc] that tend to move beyond available stability systems limits thereby computing and controlling the tire pressure in right time with right pressure on right tires thereby to sustain stability.

According to another aspect of present invention the TPOS system mitigates the loss of control & stability in puncture scenario [besides alerting the driver regarding rapid loss of pressure in puncture scenarios] by actively sensing and instantaneously supplying the fillers [air or nitrogen] from the reservoir to the punctured tires thereby to sustain the pressure preventing the rapid loss of tire pressure ultimately improving the time of drivability and stability of the vehicle.

According to another aspect of present invention the TPOS instantaneously works to enhance extreme and high speed—cornering [hard cornering] performance, torque vectoring and handling characteristic by instantaneously sensing, computing and controlling the tire pressure in right time with right pressure on right tires thereby assist in sharp cornering, preventing tires sidewall deformation simultaneously optimising traction and stability.

According to another aspect of present invention the TPOS system vary, control and optimise the tire pressure according to driving modes like comfort, comfort+, standard, economic, sport, sport+ modes etc to enhance the comfort level, performance, improving fuel efficiency thereby reducing effect on environment, controlling tire noise according to modes and also works irrespective of modes in instantaneously controlling the tire pressure according to critical situations. According to design, configuration and scenarios the TPOS system either controls the tire pressure by releasing the fillers to atmosphere or utilise inbuilt reservoir or other external restoration systems or its combinations.

According to another aspect of present invention the TPOS system works to control and optimise the tire pressure according to change in centre of gravity and load on each wheel tires by sensing, computing and controlling or optimising the tires accordingly to enhance the vehicle stability and handling characteristic.

According to another aspect of present invention the system particularly utilises one or more high pressure reservoirs or tanks for storing the fillers like air and nitrogen that are optimally located [mounted] or integrated on wheel's rim, spoke's, hub, axle etc with pneumatic valve and control system for controlling the tire pressure in critical situations and optimising or restoring the tire pressure during and after overcoming the critical situations according to the control signal from TPOS. These reservoir systems operates without any compressor or similar sources as the pressure maintained in the reservoir is higher [multiple times] than the optimum tire pressure for the fluids or fillers to flow from reservoir to tire thereby controlling the tire pressure accordingly and the fillers are restored through external sources.

According to another aspect of present invention the TPCU comprises of integrated compressor or pump powered by kinetic break energy—in combination with high pressure fluid reservoir to recharge reservoir fluid and in turn the reservoir restores the tyre pressure or without high pressure reservoir system for directly recharging tire pressure or its combinations based on design, configuration and scenarios thereby to restore and optimise the tyre pressure ultimately to provide maintenance free operation of tires. The users don't need to maintain or restore the tire pressure as the TPOS system itself will autonomously work to recharge and maintain the optimum tyre pressure.

According to another aspect of present invention the TPCU utilise kinetic break energy to run the pneumatic valves thereby to control or transfer the fluid [air, nitrogen etc] flow from & to or between atmosphere, pump, compressor, reservoirs and tires or its combinations according design, configuration, requirement and scenarios ultimately to restore and optimise the tyre and reservoir pressure.

According to another aspect of the present invention in an extreme worst case scenario that comprising of malfunction, partial or complete failure of vehicle safety and stability system [E.g. failure of breaks, TCS, rollover mitigation system etc] occurs either the onboard system automatically sense the failure to trigger TPOS or the TPOS system is manually triggered to instantaneously control the tire pressure for increasing the friction, traction and rolling resistance ultimately to reduce the stopping distance while simultaneously maintaining the vehicle stability, drivability and steerability thereby mitigating critical situations.

According to another aspect of present invention the TPCU 104 integrated with Active Tire Temperature Optimiser System [ATTOS] that works to control and maintain the tire temperature and pressure according to change in temperature of weather or environment and critical situations thereby controlling the tires property, softening, hardening or solidification and sidewall deformation rate ultimately to enhance tire traction, reduce breaking distance [emergency or normal according to scenario], enhance cornering & handling characteristics, mitigate hydroplaning, mitigate over and under steering etc. The ATTOS controls the tire temperature instantaneously in critical situation or continuously according to design, configuration and scenarios.

According to another aspect of present invention the system utilise inbuilt sensor system to actively scan, sense, compute and alerts the driver irrespective of vehicles in motion or stationary regarding wheels or rims structural damage comprising of bends & cracks and potentially hazardous foreign objects [E.g. stones] stuck in tires based on its nature, dimension & depth of penetration, tires wear & tear, tire cuts, bulges, sidewall damages, slow puncture with corresponding tires location & position.

BRIEF DESCRIPTION OF THE DIAGRAM

To get a comprehensive understanding of the system, diagrams are described by examples.

FIG. 1 illustrates the block diagram of the present system comprising components according to present invention—Tyre Pressure Optimising System [TPOS], Tyre pressure Control Unit [TPCU], User Interface, Interaction with other sensor systems, ECU, safety and stability systems

FIG. 2 illustrates the flowchart and describes the method of operation of the smart active tyre pressure optimising system.

FIG. 3 illustrates the TPOS system with various reservoir configurations. One 3A with centralised reservoir system and another 3B with dedicated reservoir system.

FIG. 4 illustrates the flowchart and describes the method of operation of the SATPOS utilising Kinetic Break Energy to run pump and compressor.

FIG. 5 illustrates the flowchart and describes the method of operation of the SATPOS utilising Kinetic Break Energy to run Pneumatic valves.

FIG. 6 [A&B] illustrates the block diagram of present system that describes the method of operation of the SATPOS utilising Kinetic Break Energy to run pneumatic valves, pump and compressor.

DETAIL DESCRIPTION

TPOS works by actively sensing critical situations and computing the tire pressure in real time based on parameters comprising of sensor system, vehicle stability & safety systems, nature of breaking & break force, tires lower & upper cut-off threshold pressure values, sensing reservoirs and tires internal & external or environmental—pressure, temperature, moisture, humidity, vehicles speed, wheel speed, acceleration & deceleration, orientations & axial rotation [yaw, pitch and roll], load distribution [load on each wheel tire], torque distribution, vehicles suspension & vertical dynamic, transverse motion & lateral acceleration, tire traction, Coefficient of Friction [COF], slip and slide angle, steering wheel position, cornering effects, change in centre of gravity, over & under steering, aqua or hydroplaning, radars detecting objects with pre & current computing of tire pressure to assist in emergency breaking & stability based on range, direction and dimension of objects in and around the vehicle, rim or wheel specifications, tire specifications & parameters comprising of—size, type, load index, speed symbol or rating, thread wear & tear, traction & temperature rating, tires dimension, direction, compound & material used, maximum load rating, maximum permissible inflation pressure, patterns of treads, lugs, voids, sipes & groves, wheel alignment & balancing, camber angle, Tires position or angle of attack, sensing nature of tires present & impending contact area [road sensing], GPS information to predict the turns, curves and bends on roads ahead and inter operating with vehicles existing stability & safety systems comprising of Anti-lock Braking System [ABS], Electronic Brakeforce Distribution [EBD], Electronic Stability Control [ESC], Traction Control System [TCS], Roll over mitigation systems, Engine Control Unit [ECU], Brake Assist [BA], Pre crash systems, suspension system, vertical dynamics & damping force, Sway or anti-roll or stabilizer bar, radar assisted auto breaking with partially & complete break to stop, automotive aerodynamics & airbrakes, sensing Drivers reaction with evasion [evasive manoeuvre] of objects, Cruise or Adaptive Cruise Control with partial & full auto breaking; thereby instantaneous direct the TPCU to control the tire pressure on corresponding tyres in right time thereby to overcome or mitigate the critical situations. As various parameters and multiple critical situations are simultaneously taken into account by TOPS for computation, the systems algorithm smartly sense, prioritise and balance between one or more parameters and scenarios to achieve an optimised solution. The design actively monitors the status of the TPOS system and their component thereby updates the driver in real time. Also mainly alerts the driver in case of the system is active and functioning through user interface regarding systems operations in critical situations comprising of controlling the tyre pressure, TPCU's lower power reserve, availability & lack of fillers in reservoir, component failure, temperature controlling status, potentially hazardous object stuck in tires etc according to design, configuration and scenarios. The TPOS system performs self diagnostic or test to verify and conform regarding working of components and accessibility of corresponding parameters; in case of crucial parameters inaccessible and components failure the system will operate in failproof or failsafe mode and default mode to ensure safe operation. Based on configurations the testing are performed automatically [like whenever the vehicle is started, in a set or schedules timings etc] and manually. The controlling of pressure is either even or uneven & continuous or discontinuous on all tires according to design, configurations, critical situations and scenarios. The system utilise either utilise wireless transceiver [transmitter/receiver] with antenna or wires for communication between TPOS and TPCU. The TPCU utilise failsafe and fail proof pneumatic valves system with actuators for controlling the tire pressure according to control signal from TPOS. The TPCU system comprise of and utilise wheel tires integrated with single to multiple internal and external, unidirectional and bidirectional, valves with & without actuators, normally open & normally closed valves, basic & electro pneumatic valves, dedicated & common valves for storing, controlling, optimising and restoring the tire pressure according to design, configurations and scenarios. The system sense the valve connected with external sources for restoring the filers and the valves works with basic valve function in scenarios of absence and low power reserve. The present system also helps in enhancing the tire performance where the driver is not in a feasible situation to change the tires to adopt according to environment or scenarios like usage of different environment specific tires [like dry tires, wet tires, all terrain tires, summer tires, winter tires, snow tires etc], all weather tires and even enhancing performance of worn tires that are about to reach tread wear bar or indicator. TPCU systems are optimally designed, compact, highly reliable, withstand mechanical stress, pressure and temperature are located on each wheel tires. The TPCU can be integrated or hidden in the spokes of the wheels for protection and to better the appearance. As the system substantially utilises and interoperate with most of the vehicles already existing sensor systems, safety and stability parameters which helps in easy implementation of the system.

FIG. 1 is a block diagram describing the working principle and various integral components of SATPOS on vehicle 100 according to the present invention comprising of Tire pressure Optimising System 102, Tire Pressure Control Units 104 ABC&D, user interface with display and control unit 101, Interaction with vehicle's ECU, safety and stability parameters 103 etc. TPOS 102 is the centralised system that computes and controls all the TPCU's 104. The TPOS system performs active monitoring & sensing, pre computing & set ready to control the tire pressure prior to critical situation, current computing for controlling the tire pressure during critical situation, post computing to optimise tire pressure after overcoming the critical situation ultimately to overcome and mitigate the critical situations. Information and control signals are transmitted and received in a periodic and continuous manner through wired and wireless communication network between TPOS 102 and TPCU'S 104 regarding the status of the components and parameters according to design, configuration and scenarios. The processing unit utilise adaptive closed loop processing algorithm with predetermined and tested correlation or lookup table to instantaneously check and compare the effects between predetermined and tested real world scenarios to the actual real world scenarios for smart & actively sensing, computing and controlling the tire pressure in right time on right tyres with right pressure thereby to mitigate the critical situations. TPCU's 104 controls the tire pressure and temperature according to the control signal from TPOS. The processing unit TPOS 102 computes the control signal based on the real time parameters form sensor systems, TPCU, ECU, vehicle Safety & stability systems, predetermined & tested parameters also accounting user interface 101 with corresponding configurations. According to control signal from TPOS 102 the TPCU'S 104 instantaneously controls the tire pressure on right tyres with right pressure in right time and varies tire temperature thereby to enhance traction and stability. The TPCU comprise of sensors, pneumatic valves and electro pneumatic valve actuators (Solenoid actuated value, pneumatic, pizo electric etc), sensor system, control circuitry, transceiver, antennas, Active Tire Temperature Optimising System [ATTOS], heating elements, power source, reservoir, moisture control system, air filter etc and actively shares the sensor system parameters and components status with TPOS 102. Each TPCU's 104 posses an unique identifier [Signal ID] to identify, transmit & receive information with TOPS 102 and are located [mounted] on all wheel tires representing corresponding wheel tires with its position that are utilised by TPOS for centralised management of all TPCU's 104. The reservoir design utilise moisture control system to remove excess moisture and maintain optimum moisture level of fillers in reservoir thereby to achieve optimum TOPS operations. TPOS 102 learns, detects and saves the ID's of TPCU's 104 on each wheel tires with the location or position and the learning process for is both automatic and manual configurable according to design and scenarios which also accounts changed or rotated tires. The TPOS 102 detects and transmits the computed control signal [pressure and temperature values] to corresponding TPCU's 104 based on the unique ID's. Once the learning process is completed and synchronised the TPOS starts monitoring and controlling the TPCU's 104, which are further wired into control and display units. At any time when the engine is on & running or off, the TPOS 102 according to design, configurations and scenarios monitor's signals from TPCU's and updates the status for active computing and controlling. The controlling of tyre pressure is preformed either simultaneously on all the tyres or any particular tires according to scenarios. Both TPOS 102 and TPCU 104 contain Transceiver [Transmitter/Receiver] with antennas for communication. The system works either in wireless and wired mode according to designed, configuration and requirement. TPCU 104 comprise of provision to enable and disable on spare tyres. The TPOS system also accounts the turbulence created during controlling of tire pressure and thereby accordingly controls the tire pressure to compensate the turbulence based on scenarios.

According to one aspect of present invention the TPOS 102 actively sense high speed & emergency breaking situations thereby immediately compute and direct the TPCU 104 to instantaneously control the tyre pressure from optimum or existing value to right pressure on right tires in right time to enhance traction and rolling resistance thereby reducing breaking distance while sustaining stability ultimately to protect the vehicles, occupants, pedestrians and other things around or on the way. In high speed and emergency breaking the breaking distance is influenced by the tire traction which in turn is also mainly influenced by tyre pressure. The system works based on—maintaining the tires upper and lower cut-off value to avoid tire deformation and over inflation of tires, sensor system parameters, suspension, vehicle safety and stability parameters ultimately to reduce the breaking distance simultaneously sustaining the vehicle stability. Instantaneously reducing the tyre pressure to some extent increases the rolling resistance and friction by controlling the contact patch or foot print which in turn increases the rolling resistance and traction there by reducing the high speed & emergency breaking distance. The system restores and optimises the tyre pressure immediately after the vehicle overcomes the emergency breaking situation to continue with safe and comfortable riding.

According to another aspect of present invention the TPOS 102 actively sensing the loss of traction, skid & wheel spin thereby immediately compute and direct the TPCU 104 to instantaneously controls the tyre pressure on right tyres [between wheels tires that experiencing loss of traction [wheel spin] and the wheels that have traction] with right pressure to restore traction thereby to mitigate loss of traction and wheel spin. Generally TCS acts as secondary function of ABS and are designed to prevent loss of traction. Traction control system works to prevent loss of traction from happening by limiting power to the wheels through applying brake force at one or more wheels, reducing or suppressing spark sequence to one or more cylinders, reducing fuel supply to one or more cylinders, closing the throttle [if the vehicle is fitted with drive by wire throttle], in turbo-charged vehicles a boost control solenoid are actuated to reduce boost and therefore engine power etc. So in critical situations the TCS cannot increase the limits of friction or grip and works with available wheel tires traction thereby only used to decrease the effect of driver error or compensate for a driver's inability to react quickly enough to wheel slip. But the present system either works in standalone mode or interoperates with Traction Control System thereby controlling the tires contact patch or foot print to enhance the available traction in critical situations ultimately further enhancing the efficiency of TCS. The system restores and optimises the tyre pressure immediately after the vehicle overcomes loss of traction to continue with safe and comfortable riding.

According to another aspect of present invention the TPOS 102 actively mitigates hydroplaning or aquaplaning by sensing, computing and directing the TPCU 104 to instantaneously control [increasing] the tire pressure in right tires with right pressure on right time while maintaining the tires upper cut-off threshold value thereby enhancing the grooves and threads to disperse more water beneath the tires to restore traction. The ESC can help to regain the control but cannot mitigate aquaplaning. Although bald tires give better grip on dry roads than treaded tires, they are unsafe in rain as the efficiency of these tires in removing water between tires and contact area is low. Thread depth plays an important role in mitigating hydroplaning and the present system works instantaneously enhancing the thread depth thereby reducing the surface area of tires to avoid water deflected inwards, increasing the tires thread depth to deflect water outward ultimately helping in clearing water which in turn prevents the rising of tires to restoring traction and mitigate aquaplaning. The system even helps in enhancing the wet traction efficiency of worn tires that are about to reach tread wear bar or indicator. The TPOS system detects hydroplaning by sensing loss of traction [slip], increase in wheel spin, vehicle stability, contact area or road sensing parameters [to sense the property of road wet, dry etc], sensing vehicle accelerate at higher rate than the intended speed, vehicles direction, sudden rise in engine RPM due to wheel spin without traction, load on wheel tires, nature of drivers input like acceleration and breaking etc; thereby computing and directing the TPCU to control the pressure on right wheels with right pressure in right time to mitigate aquaplaning and restore vehicles traction. The system restores and optimises the tyre pressure once the vehicle overcomes aquaplaning to continue with safe and comfortable riding.

According to another aspect of present invention the TPOS 102 instantaneously works to mitigate over and under steering. ESC detects loss of steering control and traction thereby automatically apply the brakes on wheels individually [selective wheel braking] such as the outer front wheel to counter over steer or the inner rear wheel to counter under steer ultimately to help “steer” the vehicle where the driver intends to go. Some ESC systems also reduce engine power until control is regained; but these ESC and similar systems works with available traction and cannot enhance the available tire traction. Generally over and under steering are caused by loss of traction tires and the present system works by actively sensing, computing and directing the TPCU 104 to instantaneously control the tire pressure in right time with right pressure on right tires thereby controlling thread depth, enhancing traction, controlling contact patch or foot print, controlling tires cornering stiffness and controlling tire deformation rate thereby mitigating positive and negative gradient to sustain zero or neutral gradient. The system either works in standalone mode or interoperates with vehicles safety and stability systems like ESC, ESP, DSC, TCS, suspension etc to enhancing the performance. The system restores and optimises the tyre pressure immediately after the vehicle overcomes under and over steering to continue with safe and comfortable riding.

According to another aspect of present invention the TPOS 102 actively sense the roll over & loss of stability thereby immediately computing and directing the TPCU 104 to instantaneously control the tyre pressure in right time on right tyres with right pressure to restore or mitigate roll over and loss of stability ultimately to sustain stability. When the vehicle tends to roll generally the Electronic stability control, roll over mitigation systems, suspension etc and other related systems works to certain extent to mitigate roll over. But there are certain scenarios where the vehicles tends to go beyond the extreme roll over limits of these systems like vehicle moving around on highly uneven terrain, leaning, slope surfaces, vehicle experiencing extreme cornering force like entering with high speed in tight corners etc that can leads to loss of stability. The system sense the limits beyond which roll over is imminent or inevitable thereby accordingly controls the pressure on right tires with right pressure on right time thereby to improve stability, centre of gravity and traction. The system won't interrupt the vehicle tyre pressures until the vehicle is about to reach the limit beyond which the vehicle will tend to roll. The present system works in standalone mode or interoperates with to enhances the performance of ESC, rollover mitigation systems etc. The system restores and optimises the tyre pressure immediately after the vehicle overcomes the critical situation to continue with safe and comfortable riding.

According to another aspect of present invention the TPOS 102 system works in critical situations to mitigates the loss of control and stability in puncture scenarios [besides alerting the driver regarding rapid loss of pressure in puncture scenarios] by actively sensing and directing the TPCU 104 to instantaneously supply the fillers [air or nitrogen] from the reservoir or tank to the punctured tires thereby to sustain the pressure preventing the rapid loss of tire pressure ultimately improving the time of drivability and stability of the vehicle. Loss of pressure in punctured tires leads to high or difference in rolling resistance and traction than other tires which comparatively comprise of least rolling resistance and traction that in turn leads to loss if vehicle stability and steer ability or drivability. So the present system actively works to control tire pressure ultimately to control the rolling resistance and traction of the other tires in accordance with punctured tires to mitigate difference in rolling resistance and traction levels. Besides controlling the tire pressure on punctured tires the TPOS system also controls [reduce] the pressure on other tires according to scenarios to enhance the vehicles drivability, stability and increasing the rolling resistance thereby reducing the breaking distance of vehicles in high speeds. As the loss of pressure in punctured tires leads to high or difference in rolling resistance and traction than other tires which comparatively comprise of least rolling resistance and traction that in turn leads to loss if vehicle stability and steer ability or drivability. So the present system actively works to control tire pressure ultimately to control the rolling resistance and traction of the other tires in accordance with punctured tires to compensate difference in rolling resistance and traction levels. Generally tubeless tires help in preventing the rapid loss of pressure in puncture scenarios and the present system assist in further enhancing its performance.

According to another aspect of present invention the TPOS 102 instantaneously works to enhance high speed or extreme cornering characteristic [hard cornering], torque vectoring and vehicle handling characteristic by actively sensing, computing and directing the TPCU 104 to instantaneously control the tire pressure in right time with right pressure on right tires thereby preventing & controlling tires sidewall deformation rate & contact patch while simultaneously providing traction and stability. The present system works in standalone mode or interoperates with to enhances the performance of safety and stability systems like TCS, ESC, rollover mitigation systems etc. The system restores and optimises the tyre pressure immediately after the vehicle overcomes the critical situations to continue with safe and comfortable riding.

According to another aspect of present invention the TPOS 102 sense, compute and direct the TPCU 104 to control and optimise the tire pressure according to driving modes like comfort, comfort+, standard, economic, sport, sport+ mode etc to enhance the comfort level, performance, improving fuel efficiency thereby reducing effect on environment, reduce tire noise while simultaneously works irrespective of driving modes to instantaneously controlling the tire pressure accordingly in critical situations to protect and sustain vehicle stability. The system works in standalone mode or interoperates with suspension, safety and stability systems to further enhance the efficiency.

According to another aspect of present invention the TPOS 102 system works to control and optimise the tire pressure according to change in centre of gravity and load on each wheel tires thereby to enhance the stability and handling characteristic of the vehicle. The system either works in standalone mode or Interact with suspension, vehicle safety and stability systems to further enhance the vehicle handling efficiency. The system restores and optimises the tyre pressure once the load and centre of gravity is restored to continue with safe and comfortable riding.

According to another aspect of present invention the system particularly utilises one or more high pressure reservoirs [tanks] for storing the fillers like air and nitrogen are optimally located [mounted] on wheel's rim, spoke's, hub, axle etc with pneumatic valve and control unit for controlling the tire pressure in critical situations and optimising or restoring the tire pressure after overcoming the critical situations according to the control signal from TPOS 102. These reservoir systems doesn't need any internal or external compressor systems or other similar sources for controlling the pressure, as the pressure of fillers in the reservoir is already maintained in higher pressure [multiple times] than the optimum tire pressure for the fillers or fluids to flow from reservoir to tire thereby to control the tire pressure accordingly. The reservoir system comprise of container for storing the fillers, pneumatic valve's for controlling the tire pressure as well as recharging or restoring the fillers, power source for systems operation, air filters, moisture control system, sensor system for monitoring the status of fluids like pressure, temperature, quantity etc. The reservoir system comprises of failsafe and fail proof pneumatic valves system with actuators and utilise single to multiple internal and external, unidirectional and bidirectional, basic and electro pneumatic valves, valves with & without actuators, normally open & normally closed valves, dedicated & common valves for storing, controlling, optimising and restoring the tire pressure according to design, configurations and scenarios. The reservoir system comprise of control system with internal pneumatic valve that connects the reservoir with tire internally for controlling the tire pressure and external valves for controlling as well as recharging the fillers. The system utilise either common or dedicated valves for controlling the tire pressure as well as restoring the fillers. The control valves are selected from pneumatic valves, electro pneumatic valve, mechanical valve, electro mechanical valve, hydraulic valves and its combinations. The reservoir system comprise of dedicated sensor system for sensing the pressure, temperature, moisture and humidity of the fillers available in the reservoir with status of the sensor system being updated to TPOS for computation and user display or interface. The TPOS also accounts the quantity of fillers available in the reservoir with sensor system parameters for the computations of controlling and restoring the tyre pressure. As there are lot of complications with vehicles integrated or inbuilt compressor and similar systems that consumes the valuable space and power also adding extra weight to the vehicle which makes the system more expensive, complex to—operate, integrate, maintain and service; the present system utilised high pressure reservoir without any compressor or similar systems that helps to simplify the operation and overcomes the complications with compressor systems. The system alerts the driver regarding lack of fillers, component status, and low pressure in reservoir. In scenarios of reservoir with not sufficient fillers or pressure the system alerts the driver regarding the same and operate in default mode where the system won't utilise fillers in the reservoir to control the tire pressure. The FIGS. 3 A&B describes reservoir system and fluid lines configurations comprise of dedicated inbuilt or integrated reservoir with TPCU 104 on all wheel tires, utilise common reservoir, utilise common reservoir for recharging the fillers of dedicated reservoir and its combinations. The reservoir systems and fluid lines are optimally are designed and integrated according to design of wheels and are either fixed or interchangeable with the wheels. The TPCU 104 utilises either common or dedicated high pressure reservoir according to design and scenarios. The fillers for the reservoir are recharged or restored during or similar to filling the tire pressure but with higher pressure. The reservoir and its control systems and pneumatic valves are designed to withstand high pressure in different temperature, humidity and moisture. The TPCU system with reservoir aids in scenarios where someone had intentionally or playfully deflated the tires by helping to inflate the tires with fillers in the reservoir thereby to continue with driving. As the control and access to TPOS, TPCU & reservoir systems are limited to unauthenticated and outsiders the actual user when back and turn on the vehicle can restore or mitigate situation by controlling the tire pressure through user interface of the system. The system with dynamically controlling the tyre pressure through high pressure reservoirs are utilised in active vehicle protection in critical situations, dynamically increasing traction according to driving conditions, optimising stability, saving fuel and reducing tyre noise.

According to another aspect of present invention the TPCU comprise of integrated compressor or pump powered by kinetic break energy—in combination with high pressure fluid reservoir to recharge reservoir fluid and in turn the reservoir restores the tyre pressure or without high pressure reservoir system for directly recharging tire pressure or its combinations thereby to restore and optimise the tyre pressure ultimately to provide maintenance free operation of tires. The users don't need to maintain or restore the tire pressure as the TPOS system itself will autonomously work to recharge and maintain the optimum tyre pressure. FIG. 6 A is a block diagram describes the working principle of present system. The system utilise Kinetic break energy generated during breaking is either converted into electrical energy or converted into mechanical energy or its combinations according to design, configurations and scenarios and are utilised to run the pump or compressor ultimately for recharging, restoring and optimising the tyre pressure and the reservoir pressure. The whole system smartly monitors, senses, computes and operates in optimal or right energy band and conditions to utilise the kinetic break energy based on sensor system parameters, thereby efficiently handling lower and higher or excessively generated kinetic break energy. The computation is performed based on intensity or level of kinetic break energy, reservoirs and tyres—internal and external pressure, temperature and moisture, engine and vehicle running conditions thereby accordingly computes, runs and controls the pump or compressor [DEL—pneumatic valves] ultimately to recharge, restore and optimise the reservoir pressure and tire pressure. The fail safe and fail proof pneumatic and [or] electro pneumatic valves with pump & [or] compressor are utilised to ensure safe operations in the event of failure [by operating in failsafe mode and default mode]. Over Pressure release valve or electro pneumatic valve works to release over pressure in reservoir and tires. Either dedicated over pressure protection valve or electro pneumatic valve or its combination is also used. The whole system interoperates with TPOS to efficiently varies, control, recharge, restore and optimise the pressure in tyres and reservoirs according design, configuration and scenarios.

According to another aspect of present invention the TPCU utilise kinetic break energy to run the pneumatic valves thereby to control or transfer the fluid [air, nitrogen etc] flow from & to or between atmosphere, pump, compressor, reservoirs and tires or its combinations according design, configuration, requirement and scenarios ultimately to restore and optimise the tyre and reservoir pressure. FIG. 6 B is a block diagram describes the working principle of present system The system utilise Kinetic break energy generated during breaking is either converted into electrical energy or converted into mechanical energy or its combinations according to design, configurations and scenarios and are utilised to run and control the pneumatic valves ultimately for recharging, restoring and optimising the tyre pressure and reservoir pressure. The whole system smartly monitors, senses, computes and operates in optimal or right energy band and conditions to utilise the kinetic break energy based on sensor system parameters, thereby efficiently handling lower and higher or excessively generated kinetic break energy. The computation is performed based on intensity or level of kinetic break energy, reservoirs and tyres—internal and external pressure, temperature and moisture, engine and vehicle running conditions thereby accordingly computes, runs and controls the pneumatic valves ultimately to recharge, restore and optimise the reservoir pressure and tire pressure. The fail safe and fail proof pneumatic and [or] electro pneumatic valves with pump & [or] compressor are utilised to ensure safe operations in the event of failure [by operating in failsafe mode and default mode]. Over Pressure release valve or electro pneumatic valve works to release over pressure in reservoir and tires. Either dedicated over pressure protection valve or electro pneumatic valve or its combination is also used. The whole system interoperates with TPOS to efficiently varies, control, recharge, restore and optimise the pressure in tyres and reservoirs according design, configuration and scenarios.

According to another aspect of the present invention in extreme worst case scenarios that comprises of malfunction, partial or complete failure of vehicle safety and stability system [E.g. like failure of breaks, TCS, rollover mitigation system etc] occurs either the onboard system automatically sense the failure to trigger TPOS or the TPOS system is manually triggered to instantaneously control the tire pressure for increasing the friction, traction and rolling resistance ultimately to reduce the stopping distance while simultaneously sustaining the vehicle stability, drivability and steerability. The system utilise sensor system and radar system to automatically sense control the tire pressure according to scenarios. The system assists in break—failure or malfunction that comprising of partial or complete break failure and either one or multiple break failure; where maintaining the constant pressure wont assist in reducing the stopping distance.

According to another aspect of the present invention the TPOS 102 works with TPCU 104 integrated with Active Tire Temperature Optimising System [ATTOS] that monitors and senses the change in temperature of weather and environment with present tire temperature and pressure there by to controls and optimise the tire temperature and pressure accordingly to improve traction, reduce breaking distance [emergency or normal according to scenario], enhance cornering & handling characteristics, mitigate hydroplaning, mitigate over steering and under steering. The tire compound plays an important role in traction, breaking distance, structural stability etc which in turn is influenced by tire temperature. The ATTOS controls the tire temperature instantaneously in critical situation or continuously according to design, configuration and scenarios. The ATTOS operate in standalone mode or interoperate the TPOS taking status of power backup in to account. The ATTOS operate in standalone mode interoperate with vehicles safety and stability systems or its combinations according to design, configurations and scenarios to enhance traction and stability. All tires have an optimum operating temperature and the property of tire compound varies according to change in temperature. When they reach it the rubber compound is at its stickiest and the carcass at its most flexible. Below that temperature, traction is reduced and the tire may have a tendency to slide; as the temperature reduces tire compound becomes harder reducing the traction thereby increasing the breaking distance and affecting vehicle handling characteristics. All weather tires and particularly summer tires under goes more solidification or hardening than winter tires when exposed to extremely low environment temperature [winter] and these hardened tires can have negative impact like increasing the breaking distance and loss of traction. There are scenarios where the driver could not predict the sudden change in weather or not in a feasible situation to change the vehicle tyres accordingly or frequently to match with change in weather or environmental conditions thereby to achieve optimised performance—E.g. generally the winter tyres are recommended in winter to provide optimum performance in breaking distance, driving comfort etc on wet, snow and slippery road surface or pavement.

The present system actively controls the tire temperature thereby controls the tires property, softening, hardening and controlling sidewall deformation rate ultimately to enhance traction, stability and handling characteristic according to scenarios. The system controls the tire temperature either instantaneously in critical situations or continuously according to design, configuration and scenarios. For example—In environments like winter, wet, snow and slippery surfaces etc the system increase and maintains the tire temperature accordingly to prevent tires form getting harder or solidification thereby to enhance traction and stability. The system utilise correlation or lookup tables to actively check and compare the effects caused in actual real world scenarios with predetermined and tested real world scenarios thereby to control and optimise the tyre temperature and pressure according to design, configuration and scenarios. The system accounts status of power source, sensor system parameters, heating element, change in temperature, moisture & pressure of tires and environment, driving modes, rim or wheel and tire specification & parameters comprising of—size, type, load index, speed symbol or rating, thread wear & tear, traction & temperature rating, tires dimension, direction, nature of compound & material used, maximum load rating, maximum permissible inflation pressure, patterns of treads, lugs, voids, sipes & groves, vehicle safety and stability systems, change in temperature, pressure, moisture and humidity of fillers in reservoirs and compressors for actively sensing, computing the tire temperature and controlling the tire temperature. The ATTOS works in both pneumatic and non pneumatic tires.

The Tire Temperature Optimising System [TTOS] works with and utilise either one or combination of direct and indirect heating techniques that comprise of thermal conduction, diffusion, convection, radiation and advection to generate, control and maintain the tire temperature. Energy transfer and heating elements are optimally integrated in wheels, tires, hub, axle, suspension and vehicles chassis etc. The direct heating works utilising heating elements and the indirect heating generate and maintain temperature through heating fillers or fluids & principle of electromagnetic induction heating that operates irrespective of vehicle in stationary or motion according to design, configurations and scenarios. The system make use of Induction heating coil and materials that support electromagnetic induction to generate and maintain heat are utilised in tire manufacturing that comprises one or combination of ferromagnetic metals, ferromagnetic alloys and other suitable metals or element in fabrication of tires, radial tires, plies, steel belted tires etc thereby to precisely transfer the heat to contact path or foot print area simultaneously saving power. Either dedicated heating element or the plies or belts with suitable material is utilised for induction heating. The TPCU integrated with TTOS accounts controlling the tyre pressure to an optimum value according to change in temperature to further enhances traction & stability—since controlling of tyre pressure increases or controls the contact patch or footprint surface area with the road thereby further enhancing traction through increasing and controlling the tyre temperature. Generally present system helps in enhancing traction, stability and performance of all tires and particularly other non winter tires like summer tires, all weather tires etc in winter, snow and wet conditions.

The system utilise one or more or combination of internal or external power source according to design, configurations and scenarios for controlling and maintaining the temperature. The ATTOS operate in standalone mode with either dedicated power source or interoperate with vehicle power source or its combinations taking status power backup in to account. Regenerative breaks [Kinetic Energy Recovery System or Break Energy Recuperation System] breaking energy can be utilise to control tire temperature. There are scenarios where excess power available with the vehicle and to avoid over charging these powers are not consumed and this excess available power are utilised by the system for controlling the tire temperature, also according to scenarios the system maintains threshold level to prevent excess power consumption form vehicles power source. The system is highly user configurable and the system maintains temperature either automatically or manually according to design, configurations and scenarios.

According to another aspect of present invention the system utilise inbuilt sensor system to actively scan, sense, compute and alerts the driver irrespective of vehicles in motion or stationary regarding structural damage on wheels or rims comprising of bends & cracks and potentially hazardous foreign objects [E.g. stones] stuck in tires based on its nature, dimension & depth of penetration, tires wear & tear, tire cuts, bulges, sidewall damages, slow puncture with corresponding tires location & position. The system utilise smart and adaptive closed loop processing algorithm with correlation or lookup tables to actively check and compare the effects caused in actual real world scenarios with predetermined and tested real world scenarios for precisely sensing, comparing, computing and alerting the driver in advance regarding the potentially hazardous critical situations. The system works based on online and preloaded wheel & rim specifications, balancing beads, tire specifications & parameters comprising of—size, type, load index, speed symbol or rating, thread wear & tear, traction & temperature rating, compound & material used, maximum load rating, maximum permissible inflation pressure, patterns of treads, lugs, voids, sipes & groves. The system utilise one or more optimally located internal and external sensors or sensor arrays on wheel tires and vehicle for scanning comprising of distance or range sensors, visual cameras, IR cameras & sensors, acoustic or ultrasonic sensor, electromagnetic sensors, electrostatic sensors, inductive sensors, capacitive sensors, echo sensors, thermal sensors for scanning & detecting wheels, balancing beads and tire parameters comprising of specifications, change in properties [nature], patterns, direction, dimension, positions, multi layers and range. The system works by sensing wheel specifications and nature or property of tyres and foreign objects comprise of permittivity-∈, permeability-μ, conductivity-σ, susceptibility, dielectric, capacitive sensing, capacitive displacement sensing, inductive sensing.

FIG. 2 is the flowchart describes the method of operation of SATPOS according to the present invention. By starting with 210 the sensor system 220 monitors the parameters comprising of sensing pressure, temperature, moisture, humidity of fillers available in tires as well as reservoirs, sensing nature of break force, sensing vehicle and wheel speed, sensing vehicles orientation, acceleration and deceleration, sensing vehicles load and load on each wheel tires, sensing steering angle or position with vehicles relative motion, sensing objects in the environment of the vehicle with its direction, dimension, nature, approaching & departing speed with respect the vehicle, sensing nature of road, terrain or contact area, utilise GPS sensors for predicting the turns, curves and bends ahead etc and accordingly generate the trigger signal 230. The system analyse the state of trigger signal to compute and detect the critical situation, matching parameters and scenarios to decide on further action 240. SATPOS actively compute the control signal based on nature of trigger signal 230, safety & stability parameters [E.G. ABS, EBD, BA, ESP, TCS, EULER ANGLES, ECU, automotive aerodynamics & airbrakes etc and predetermined and tested correlation or mapping table to precisely sensing the critical situations with its effects thereby to control the tire pressure in an active, adoptive and closed loop manner to overcome and mitigate the critical situations 250. Based on the control signal from TOPS the TPCU 260 actively controls and optimise the tire pressure in right time on right tire with right pressure to reduce the breaking distance, overcome and mitigate the critical situations and to restore & sustain vehicle stability 260. In case of no critical situations is detected or not matches any parameters and scenarios the system maintains standard tire pressure and won't work on controlling temperature 270 according to preset configuration and ends with 280.

FIG. 4. is the flowchart describing the method of operation of SATPOS utilising Kinetic Break Energy to run the Pump and [or] Compressor to restore and maintain tire and reservoir pressure according to the present invention. By starting with 310 the sensor system 220 monitors the parameters comprising of sensing pressure, temperature, moisture, humidity of fillers available in tires as well as reservoirs, sensing nature of break force, sensing vehicle and wheel speed, sensing vehicles orientation, acceleration and deceleration, sensing vehicles load and load on each wheel tires, sensing steering angle or position with vehicles relative motion, sensing objects in the environment of the vehicle with its direction, dimension, nature, approaching & departing speed with respect the vehicle, sensing nature of road, terrain or contact area, utilise GPS sensors for predicting the turns, curves and bends ahead etc and accordingly generate the trigger signal 230. The system analyse the state of trigger signal to compute and detect whether the tire and reservoir pressure sufficient to decide on further action 340. In case of insufficient pressure the system monitors the nature of breaking 380 with magnitude of kinetic energy. The system analyse whether the Kinetic break energy is sufficient to run the pump or compressor 390. SATPOS actively computes the control signal based on magnitude and nature of kinetic break energy, safety & stability parameters [E.G. ABS, EBD, BA, ESP, TCS, EULER ANGLES, ECU, automotive aerodynamics & airbrakes etc and predetermined and tested correlation or mapping table to precisely sensing effects thereby directs the TPCU to act accordingly 360. Based on the control signal from TPOS the TPCU 370 actively controls and runs the integrated pump or compressor to recharge, restore and optimise the tire and reservoir pressure 370. In case of kinetic break energy not sufficient the system won't run the pump or compressor and maintains the available tire and reservoir pressure 370 according to preset configuration and ends with 410.

FIG. 5. is the flowchart describing the method of operation of SATPOS utilising Kinetic Break Energy to run the Pneumatic valves for fluid transfer thereby to restore and maintain tire and reservoir pressure according to the present invention. By starting with 310 the sensor system 220 monitors the parameters comprising of sensing pressure, temperature, moisture, humidity of fillers available in tires as well as reservoirs, sensing nature of break force, sensing vehicle and wheel speed, sensing vehicles orientation, acceleration and deceleration, sensing vehicles load and load on each wheel tires, sensing steering angle or position with vehicles relative motion, sensing objects in the environment of the vehicle with its direction, dimension, nature, approaching & departing speed with respect the vehicle, sensing nature of road, terrain or contact area, utilise GPS sensors for predicting the turns, curves and bends ahead etc and accordingly generate the trigger signal 230. The system analyse the state of trigger signal to compute and detect whether the tire and reservoir pressure sufficient to decide on further action 340. In case of insufficient pressure the system monitors the nature of breaking 380 with magnitude of kinetic energy. The system analyse whether the Kinetic break energy is sufficient to run the pneumatic valves 590. SATPOS actively computes the control signal based on magnitude and nature of kinetic break energy, safety & stability parameters [E.G. ABS, EBD, BA, ESP, TCS, EULER ANGLES, ECU, automotive aerodynamics & airbrakes etc and predetermined and tested correlation or mapping table to precisely sensing effects thereby directs the TPCU to act accordingly 560. Based on the control signal from TPOS the TPCU 370 actively controls and runs the pneumatic valves to transfer fluids ultimately to recharge, restore and optimise the tire and reservoir pressure 570. In case of kinetic break energy not sufficient the system won't run the pneumatic valves and maintains the available tire and reservoir pressure 550 according to preset configuration and ends with 610.

The TPCU 104 comprise of internal or external power source for its operation and are selected from TPCU's inbuilt batteries, capacitors and vehicle batteries. The power source is wired or wireless and the charging sources for the TPCU's inbuilt battery and capacitor are sourced from vehicle battery, external charging systems, internal self changing systems with feasible alternator or generator, capacitive coupling, inductive coupling, electromagnetic coupling etc. The type of batteries utilised comprise of primary batteries or rechargeable batteries, Regenerative breaks [Kinetic Energy Recovery System or Break Energy Recuperation System] or its combinations. The power source is internal fixed or replaceable, external and its combinations with the system smartly managing the charging and backup [E.g under & over charging protection] of the power levels with updating & alerting the status of power source to TPOS, display and user interface. In case on both capacitor and battery utilised, according design configuration and scenarios the system utilise the battery to power the monitoring system for sensing and updating the status of tyre pressure, temperature, RF transmission etc and the capacitor can be utilised to instantaneously supply the power to electro pneumatic valve actuator [for controlling the tire air pressure according to the trigger from TPOS]. The present system tap's the required power for its operation according to vehicle's running conditions and engine parameters [E.g. like vehicle running down the slope or declined roads with excess speeds where the cruise control system control the excess speed to maintain preset speed].

The TPOS 102 comprise of sensor system that works based on one or combination of sensors, safety & stability parameters, configurations, operating modes and usage scenarios for detecting the critical situations of vehicles experiencing or moving beyond the limits of vehicles available safety and stability systems with sensors for active sensing and utilise it for pre computing & set ready to control tire pressure, current computing to control the tire pressure during critical situation and post computing to control the tire pressure after critical situation ultimately to overcome and mitigate the critical situations—1. Sensors for sensor system comprise of Pressure sensors, Temperature sensors, humidity and moisture sensors for sensing the pressure, temperature, humidity and moisture content of fluids or fillers available in tires and reservoirs. The sensor system in addition senses the external or environments temperature, moisture and humidity for computation thereby to enhance the precision of the system; 2. Vehicle speed and wheel speed sensor for sensing the vehicle speed and wheels speed thereby sensing the loss of traction and wheel slip or spin ultimately for computing the tire pressure accordingly in critical situations; 3. Orientation sensors and accelerometer for sensing the vehicles orientation, acceleration and deceleration ultimately for computing the tire pressure accordingly in critical situations; 4. Load sensor for sensing the load of the vehicle, load on individual wheel tires and change in centre of gravity ultimately for computing the tire pressure accordingly in critical situations; 5. Steering angle or position sensor for sensing the position of the steering wheel and vehicles relative motion thereby sensing vehicle stability, over and under steering ultimately for computing the tire pressure accordingly in critical situations; 6. Break force sensor for sensing the nature of the break force during breaking scenarios ultimately for pre computing, current computing and post computing thereby to control the tire pressure accordingly in critical situation in critical situations; 7. Sensors for sensing tire properties and foreign objects stuck in tire, dimension & depth of penetration, tires wear & tear, tires cuts, bulges, sidewall damages, slow puncture with corresponding tires location & position comprise of distance or range sensors, visual cameras, IR cameras, acoustic or ultrasonic sensor, electromagnetic sensors, electrostatic sensors, inductive sensors, capacitive sensors, echo sensors, thermal sensors. The system utilise one or more optimally located internal and external sensors or sensor arrays on tires and vehicle for scanning comprising of distance or range sensors, visual cameras, IR cameras, acoustic or ultrasonic sensor, electromagnetic sensors, electrostatic sensors, inductive sensors, capacitive sensors, echo sensors, thermal sensors for scanning & detecting tires parameters comprising of change in tire properties [nature], patterns, direction, dimension, positions, multi layers & range, pressure, temperature, moisture and humidity. The sensor sensing the nature or property of tyre and foreign object comprise of permittivity-∈, permeability-μ, conductivity-σ, susceptibility, dielectric, capacitive sensing, capacitive displacement sensing, inductive sensing; 8. Radar and range sensors for scanning the environment around the vehicle by detecting vehicles, pedestrians and objects in front, rear and around the vehicle with its direction, dimension, nature, approaching & departing speed with respect the vehicle thereby utilised for pre, current and post computing ultimately for controlling the tire pressure according to critical situation. The radar system comprises of visual, active and passive infrared cameras with real-time digital image and signal processing thereby to sense the nature of the objects around the vehicle; 9. Terrain, road or contact area sensors for sensing the nature of present contact and impending road and terrain surfaces with its property comprising of normal dry roads, wet, mud & ruts, rocks, gravel, grass, snow, sand, rough, highly uneven terrain, rocky crawl and its combinations thereby computing the tire pressure accordingly in critical situations; 10. GPS sensors for predicting the turns, curves and bends ahead of the road for pre computing and set ready for action in controlling the tire pressure accordingly; 11. The system utilizes predetermined and tested field mapping or lookup table for sensing, comparing & matching the effects between real time sensor system parameters with predetermined and tested sensor system parameters ultimately for computing the tire pressure accordingly; 12. The sensor systems precision levels, sensing depth of dimension and multi layer sensing are utilised depends upon the design & requirement. The sensor system utilise sensors, capable of either fixed or tuneable sensitivity and the range are selected according to design, scenarios and requirement.

The TOPS 102 system utilise correlation or lookup tables to actively check and compare the effects caused in actual real world scenarios with predetermined and tested real world scenarios to control and optimising the tyre pressure accordingly in critical situations. The tables comprise of pressure values that lies between upper and lower cut-off tire pressure values designed and developed with corresponding change in vehicles load and centre of gravity thereby the TOPS 102 system controls the tire pressure between upper and lower cut-off tire pressure values according to scenarios to mitigate critical situations while preventing the over inflation and deflation or tire deformation ultimately to sustain stability. The table is designed and developed based on TPOS system designs, scenarios, configurations and parameters comprising of—sensor system, vehicle stability & safety systems, nature of breaking & break force, tires lower & upper cut-off threshold pressure values, sensing reservoirs and tires internal & external or environmental—pressure, temperature, moisture, humidity, vehicles speed, wheel speed, acceleration & deceleration, orientations & axial rotation [yaw, pitch and roll], load distribution [load on each wheel tire], torque distribution, vehicles suspension & vertical dynamic, transverse motion & lateral acceleration, tire traction, slip and slide angle, steering wheel position, cornering effects, change in centre of gravity, over & under steering, aqua or hydroplaning, rim or wheel specifications, wheel alignment & balancing, tire specifications & parameters comprising of—size, type, load index, speed symbol or rating, thread wear & tear, traction & temperature rating, compound & material used, maximum load rating, maximum permissible inflation pressure, direction, dimension, patterns of treads, lugs, voids, sipes & groves, tires position or angle of attack, Coefficient of Friction [COF], radars detecting objects with pre & current computing of tire pressure to assist in emergency breaking & stability based on range, direction and dimension of objects in and around the vehicle, sensing nature of tires present & impending contact area, GPS information to predict the turns, curves and bends on roads ahead and inter operating with vehicles existing stability & safety systems comprising of—ABS, EBD, ESC, TCS, Roll over mitigation systems, ECU, BA, Pre crash systems, suspension system, vertical dynamics & damping force, Sway or anti-roll or stabilizer bar, radar assisted auto breaking with partially & complete break to stop, Drivers reaction with evasion [evasive manoeuvre] of objects, automotive aerodynamics & airbrakes, Pre crash systems, Cruise or Adaptive Cruise Control with partial & full auto breaking. As various parameters and multiple critical situations are simultaneously taken into account by TOPS for computation, the table is designed and developed based on prioritising and balancing between one or more parameters and scenarios ultimately to achieve an optimised performance.

With self supporting reinforced tires the efficiency of the system is further enhanced where these tyres have an additional supporting ring attached to the wheel that can support the weight of the vehicle in the event of a loss of pressure. For E.g. Run-flat tyres [RFT] have specially reinforced side walls and additional lateral strengthening helps continue to perform their function even if all air pressure is lost. The heat-resistant rubber compounds are able to withstand additional heat build-up and the wheel rims of run-flat tyres have special design that ensures the tyre will not detach from the rim, even on tight bends. The present system also assists in reducing the breaking or stopping distance of aircrafts—landing or takeoff on runway in critical situations like abort takeoff, rejected takeoff due to over running of runway for takeoff, emergency landing, reducing stopping distance in brake failure etc which can sometimes leads to aircraft moving beyond safety margin and the available runway may be insufficient to stop the aircraft. The wheel tires with TPCU system are constructed with a counterweight or utilise externally added tire weights [balance] to compensate the mass of the TPCU. The precisely well equipped TPOS system helps in mitigating the negative effects caused by vehicles utilising mixed tires like old & new tires, different thread pattern tires and different types like wet & dry tyres, Soft & hard compound tyres, slick & intermediate tires, summer & winter tyres with various patterns off treads, lugs, voids, grooves etc thereby by ultimately enhancing the overall performance.

The embodiments of the present invention is not limited to listed scenarios described here or its combinations and the above presented are just examples. There may be other scenarios and those who skilled in field can understand and modify, enhance, alter the herein system without departing from the scope of the invention in its widest form. 

1. The Smart Active Tyre Pressure Optimising System comprise of a. A sensor system for actively monitoring, sensing and generating trigger signal to TPOS for detecting the critical situations of vehicle comprising of emergency breaking, loss of traction, hydroplaning or aquaplaning, loss of stability, rollover, over and under steering. b. A processing unit Tyre Pressure Optimising System [TPOS] which is highly time sensitive design and technique with high processing and functioning speeds that instantaneously sense and controls the tire pressure particularly in imminent and inevitable critical driving situations—to reduce emergency & high speed breaking distance, mitigate hydroplaning, mitigate loss of traction, mitigate roll over, mitigate loss of stability & control, mitigate over and under steering, mitigate loss of control due to puncture by actively sensing, perform context aware computing and directing the Tyre Pressure Control Units [TPCU] to instantaneously vary and control the tyre pressure in right time with right pressure on right tyres thereby actively controlling the tires contact patch or footprint area and sidewall deformation rate to enhance traction and stability while sustaining vehicle's drivability or steerability thereby to avoid or reduce the impact of collusion and to overcome or mitigate the critical situations ultimately to protect the occupants, vehicles, pedestrians and other things around & on the way. The TPOS system performs active monitoring & sensing, pre computing & set ready to control the tire pressure prior to critical situation, current computing for controlling the tire pressure during critical situation, post computing to immediately optimise tire pressure after overcoming the critical situation. TPOS utilise smart and adaptive closed loop processing algorithm with predetermined and tested correlation or lookup table to instantaneously check and compare the effects between predetermined and tested real world scenarios and parameters to the actual real world scenarios for smart & actively sensing, computing and controlling the tire pressure accordingly to mitigate the critical situations. c. TPOS works by actively sensing critical situations and computing the tire pressure in real time based on parameters comprising of sensor system, vehicle stability & safety systems, nature of breaking & break force, tires lower & upper cut-off threshold pressure values [where lower cut-off pressure is above the minimum tire pressure value], sensing reservoirs and tires internal & external or environmental—pressure, temperature, moisture, humidity, vehicles speed, wheel speed, acceleration & deceleration, orientations & axial rotation [yaw, pitch and roll], load distribution [load on each wheel tire], torque distribution, vehicles suspension & vertical dynamic, transverse motion & lateral acceleration, tire traction, Coefficient of Friction [COF], slip & slide angle, steering wheel position, cornering effects, change in centre of gravity, over & under steering, aqua or hydroplaning, radars detecting objects with pre & current computing of tire pressure to assist in emergency breaking & stability based on range, direction and dimension of objects in and around the vehicle, tire specifications & parameters comprising of—size, type, load index, speed symbol or rating, thread wear & tear, traction & temperature rating, tires dimension, direction, compound & material used, maximum load rating, maximum permissible inflation pressure, patterns of treads, lugs, voids, sipes & groves, rim or wheel specifications, camber angle, wheel alignment & balancing, Tires position or angle of attack, terrain sensing detecting nature of tires present & impending contact area, GPS information to predict the turns, curves and bends on roads ahead and inter operating with vehicles existing stability & safety systems comprising of Anti-lock Braking System [ABS], Electronic Brakeforce Distribution [EBD], Electronic Stability Control [ESC], Traction Control System [TCS], Roll over mitigation systems, Engine Control Unit [ECU], Brake Assist [BA], Pre crash systems, suspension system, vertical dynamics & damping force, Sway or anti-roll or stabilizer bar, radar assisted auto breaking with partially & complete break to stop, automotive aerodynamics & airbrakes, sensing Drivers reaction with evasion [evasive manoeuvre] of objects, Cruise or Adaptive Cruise Control with partial & full auto breaking; thereby instantaneous direct the TPCU to control the tire pressure on corresponding tyres in right time ultimately to overcome or mitigate the critical situations. As various parameters and multiple critical situations are simultaneously taken into account by TOPS for computation, the systems algorithm smartly sense, prioritise and balance between one or more parameters and scenarios to achieve an optimised solution. d. TPOS in addition to instantaneously varying and controlling the tyre pressure in critical situations; immediately optimises or restores the tyre pressure if difference or variation in tires pressure is detected from the optimum or preset pressure value once the vehicle overcomes the critical situations to continue with comfortable driving, enhancing stability, mileage and reducing tyre noise. According to design, configuration and scenarios the present system either controls the pressure by releasing the fillers to atmosphere while maintaining the tires lower cut off threshold pressure value [where the pneumatic valve's automatically closes when lower cut-off tire pressure value is reached which is above minimum tire pressure value] to sustain stability and instantaneously optimise the pressure on all tyres for further safe driving [till next gas station or filling] until restoration or else restores the pressure to optimum pre set value utilising inbuilt reservoir or other external restoration systems immediately after the vehicle overcomes critical situation to continue with comfortable driving. The TPOS works in standalone mode or interoperate with vehicles safety and stability systems or its combinations according to design, configurations and scenarios. Either dedicated hard or soft or its combinations TPOS switches are utilised in case to manually activate TOPS. e. Tyre pressure Control Unit [TPCU] that instantaneously acts according to control signal from TPOS which is located on each wheel tyre to instantly vary and control the pressure on right tyres with right pressure in right time thereby to enhance traction and sustain stability. TPCU comprise of sensor system, pneumatic valve with actuators, transceivers, antennas, power source, reservoirs, Active Tire Temperature Optimising System [ATTOS], heating elements where TPCU actively shares sensor system parameters and components status with TPOS. The controlling of tyre pressure is preformed either simultaneously on all the tyres or any particular tires according to scenarios and control signal from TPOS. f. The TPOS system performs self diagnostic or test to verify and conform regarding working of components and accessibility of corresponding parameters. In case of crucial parameters inaccessible and components failure the system will operate in failproof or failsafe mode and default mode to ensure safe operation. The system comprises of standard to highly configurable settings for the user to configure the TPOS parameters according to requirements and the system comprise of provision to enable and disable the system. In critical situations the TPOS is either configured to trigger automatically or manually according to scenarios. In scenarios of further controlling of tire pressure is not possible due to component failure, lack of fillers or pressure and power' the system alerts the driver regarding the same and works in default mode to retain the available or even or optimum pressure on all tires.
 2. The system said in claim 1, comprise of sensor system that works based on one or combination of sensors, safety & stability parameters, configurations, operating modes and usage scenarios for detecting the critical situations of vehicles experiencing or moving beyond the limits of vehicles available safety and stability systems with sensors for active sensing and utilise it for pre computing & set ready to control tire pressure, current computing to control the tire pressure during critical situation and post computing to control the tire pressure after critical situation ultimately to overcome and mitigate the critical situations. Sensors for sensor system comprise of a. Pressure sensors, Temperature sensors, humidity and moisture sensors for sensing the pressure, temperature, humidity and moisture content of fluids or fillers available in tires and reservoirs. The sensor system in addition senses the external or environments temperature, moisture and humidity for computation thereby to enhance the precision of the system. b. Vehicle speed and wheel speed sensor for sensing the vehicle speed and wheels speed thereby utilising it for computing the tire pressure accordingly in critical situations. c. Orientation sensors and accelerometer for sensing the vehicles orientation, acceleration and deceleration thereby utilising it for computing the tire pressure accordingly in critical situations. d. Load sensor for sensing the load of the vehicle, load on individual wheel tires and change in centre of gravity thereby utilising it for computing the tire pressure accordingly in critical situations. e. Steering angle or position sensor for sensing the position of the steering wheel and vehicles relative motion thereby sensing vehicle stability, over and under steering ultimately utilising it for computing the tire pressure accordingly in critical situations. f. Break force sensor for sensing the nature of the break force during breaking scenarios ultimately utilising it for pre computing, current computing and post computing thereby to control the tire pressure accordingly in critical situation. g. Sensors for sensing damage in wheels, tire properties and foreign objects stuck in tire, its dimension & depth of penetration, tires wear & tear, tires cuts, bulges, sidewall damages, slow puncture with corresponding tires location & position comprise of one or more optimally located internal and external sensors or sensor arrays on tires and vehicle for scanning comprising of distance or range sensors, visual cameras, IR cameras & sensors, acoustic or ultrasonic sensor, electromagnetic sensors, electrostatic sensors, inductive sensors, capacitive sensors, echo sensors, thermal sensors for scanning & detecting tires parameters comprising of change in tire properties [nature], patterns, direction, dimension, positions, multi layers & range, pressure, temperature, moisture and humidity. The sensor sensing the nature or property of tyre and foreign object comprise of permittivity-∈, permeability-μ, conductivity-σ, susceptibility, dielectric, capacitive sensing, capacitive displacement sensing, inductive sensing. h. Radar and range sensors for scanning the environment around the vehicle by detecting vehicles, pedestrians and objects in front, rear and around the vehicle with its direction, dimension, distance, nature, approaching & departing speed with respect the vehicle thereby utilised for pre, current and post computing ultimately utilising it for controlling the tire pressure according to critical situation. The radar system comprises of visual, active and passive infrared cameras with real-time digital image and signal processing thereby to sense the nature of the objects around the vehicle. i. Terrain, road or contact area sensors for sensing the nature of present contact and impending road and terrain surfaces with its property comprising of normal dry roads, wet, mud & ruts, rocks, gravel, grass, snow, sand, rough, highly uneven terrain, rocky crawl and its combinations thereby utilise it computing the tire pressure accordingly in critical situations. j. GPS sensors for predicting the turns, curves and bends ahead of the road for pre computing and set ready for controlling the tire pressure accordingly, k. The system utilizes predetermined and tested field mapping or correlation or lookup table for sensing, comparing & matching the effects between real time sensor system parameters with predetermined and tested sensor system parameters ultimately for computing the tire pressure accordingly. l. The sensor systems precision levels, sensing depth of dimension and multi layer sensing are utilised according the design & requirement. The sensor system utilise sensors, capable of either fixed or tuneable sensitivity and the range are selected according to design, configuration, scenarios and requirement.
 3. The system said in claim 1, where the TPOS comprise of processing unit, Transceiver [transmitter/receiver], antennas, interconnections with—sensor systems, ECU, vehicle stability and safety parameters, memory and online access [for live update]. The TPOS actively computes the control signal to control the tyre pressure based on either one or combination of following a. The computation of TPOS control signal to TPCU is based on tires upper and lower cut-off or threshold pressure values thereby to enhance vehicle traction while sustaining stability. The TPOS controls the tire pressure between upper and lower cut-off or threshold pressure to prevent over and under inflation of tires thereby preventing deformation of the tyres which in turn leads to loss of vehicle stability b. To enhance the efficiency of the system the TOPS computation of control signal to TPCU's utilises parameters comprising of sensor system, vehicle stability & safety systems, nature of breaking & break force, tires lower & upper cut-off threshold pressure values, sensing reservoirs and tires internal & external or environmental—pressure, temperature, moisture, humidity, vehicles speed, wheel speed, acceleration & deceleration, orientations & axial rotation [yaw, pitch and roll], load distribution [load on each wheel tire], torque distribution, vehicles suspension & vertical dynamic, transverse motion & lateral acceleration, tire traction, Coefficient of Friction [COF], slip & slide angle, steering wheel position, cornering effects, change in centre of gravity, over & under steering, aqua or hydroplaning, tire specifications & parameters comprising of—size, type, load index, speed symbol or rating, thread wear & tear, traction & temperature rating, compound & material used, maximum load rating, maximum permissible inflation pressure, direction, dimension, patterns of treads, lugs, voids, sipes & groves, rim or wheel specifications, wheel alignment & balancing, camber angle, tires position or angle of attack, radars detecting objects with pre & current computing of tire pressure to assist in emergency breaking & stability based on range, speed, angle approaching or direction and dimension of objects in and around the vehicle, sensing nature of tires present & impending road or contact area, GPS information to predict the turns, curves and bends on roads ahead for computing the control signal to TPCU thereby to enhance vehicle traction and stability. c. To further enhance the efficiency of the system the TPOS computation of control signal to TPCU is performed by inter operating with vehicles existing stability & safety systems comprising of—ABS, EBD, ESC, TCS or ASR, Roll over mitigation systems, ECU, BA, suspension system, vertical dynamics & damping force, Sway or anti-roll or stabilizer bar, pre crash systems, radar assisted auto breaking with partially & complete break to stop, sensing Drivers reaction with evasion [evasive manoeuvre] of objects, automotive aerodynamics & airbrakes, Cruise or Adaptive Cruise Control with partial & full auto breaking; thereby instantaneous directing the TPCU to control the tire pressure to enhance vehicle safety and stability. d. The TPOS either operates in standalone mode with sensor system parameters or interoperates with vehicles stability & safety parameters or its combinations to enhancing traction and stability in critical situation. The controlling of tire pressure is either even or uneven and continuous or discontinuous on all tires according to design, configurations and scenarios. e. The system utilise either wireless transceiver [transmitter/receiver] with antenna or wired network or its combination for communication between TPOS and TPCU. f. The TPOS processing unit comprise of one or combination of onboard computer and dedicated processing unit for the computation of control signal. g. The TPOS system utilise predetermined and tested lookup or correlation table to actively check and compare the effects between predetermined and tested real world scenarios to the actual real world scenarios for computation and controlling of tire pressure. h. TPOS system according to design, configurations and scenarios either works with or without or combination of internal or external high pressure reservoirs and compressor systems for instantaneously controlling and optimising the tire pressure during and after overcoming the critical situations. i. The TPOS in addition to monitoring the status of tyres; monitors the pressure, temperature, moisture, humidity of the fillers available on reservoirs for the computation of control signal to TPCU with the status of the sensor system being updated in user display or interface. j. The TPOS computation and controlling of tyre temperature and pressure in critical situations are within the scope [range] of tires upper and lower cut-off threshold values thereby to prevent over or under inflation of tyre and to sustains vehicle stability, k. The TPOS utilise TPCU integrated with Tire Temperature Optimising System [TTOS] to control the tire temperature according to change in temperature of environments or weather and in critical situations thereby controlling tires properties, preventing tire hardening or solidification thereby to enhances tire traction, stability, reduce breaking distance, enhance vehicle cornering & handling characteristics, mitigate hydroplaning, mitigate over steering and under steering. TPOS controls the tire temperature either instantaneously in critical situations or continuously according to design, configuration and scenarios. l. When the system is active and functioning the driver is alerted through user interface regarding systems operations and critical situations. TPOS performs the self diagnostic or test to verify and conform with working of the components & system. Also monitor and alerts the status of the system, when the system is actively functioning in controlling the tyre pressure, TPCU's lower power reserve and availability of fillers in reservoir according to scenarios. The self testing works either automatically or manually according to design, configuration and scenarios.
 4. The system said in claim 1, where the TPCU is located in each wheel tire, hub and axle that comprise of pneumatic valve with actuators, controller circuitry for controlling tyre pressure according to control signal from TPOS, Transceiver, antennas, sensors, power source, fluid reservoir system, integrated pump and compressor, Active Tire Temperature Optimising System [ATTOS], heating elements. a. The TPCU shares the real time information and parameters—tire pressure, temperature, humidity, moisture, power source status, reservoir status with TPOS and act according to control signal from TPOS thereby to control the tyre pressure and temperature. b. The TPCU utilise failsafe and fail proof pneumatic valves system with actuators for controlling the tire pressure according to control signal from TPOS. The TPCU system comprise of and utilise wheel tires integrated with single to multiple internal and external, unidirectional and bidirectional, valves with & without actuators, normally open & normally closed valves, basic & electro pneumatic valves, dedicated & common valves for storing, controlling, optimising and restoring the tire pressure according to design, configurations and scenarios. c. The TPCU utilise wireless transceiver [transmitter/receiver] with antenna, wired communication and its combinations for communicating with TOPS. d. The TPCU comprise of internal power source, external power source and its combinations for its operation and are selected from TPCU's inbuilt batteries, capacitors and vehicle batteries. The power source is wired or wireless or its combinations and the charging sources for the TPCU's inbuilt battery and capacitor are sourced from vehicle battery, external charging systems, internal self changing systems with feasible alternator or generator, capacitive coupling, inductive coupling, electromagnetic coupling, Regenerative breaks. The type of batteries utilised comprise of primary batteries, rechargeable batteries and its combinations. The power source is either external, internal fixed or replaceable and its combinations with the system smartly managing the charging and backup of the power levels with updating & alerting the status of power source to TPOS, display and user interface. e. TPCU system according to design, configurations and scenarios either works with and without, internal and external, reservoir and compressor or its combinations for instantaneously controlling and optimising the tire pressure during and after overcoming the critical situations. In critical situations the system controls the tire pressure by either releasing the fillers to atmosphere and restore from internal and external reservoir & compressor or store and restore the fillers from and to internal and external reservoir & compressor according to design, configurations and scenarios. f. TPCU with reservoir works by instantaneously controlling and optimising the tire pressure during and after overcoming the critical situations utilising the high pressure fillers in the reservoir. The TPCU comprise of control system with internal pneumatic valve that connects the reservoir with tire internally for controlling the tire pressure and external valve for controlling as well as recharging the fillers. The system utilise either common or dedicated valves for controlling the tire pressure as well as restoring the fillers. The control valves are selected from pneumatic valves, electro pneumatic valves, mechanical valves, electro mechanical valves and its combinations. g. TPCU with compressor works by instantaneously controlling and optimising the tire pressure during and after overcoming the critical situations utilising the fillers from compressor unit. h. TPCU works without reservoir or compressor through instantaneously controlling the tire pressure in critical situations by releasing the fluids or fillers [air or nitrogen] to atmosphere and optimises the tire pressure on all tires for further safe driving. The fillers are to be restored through external sources [next gas station or air pumps], i. The TPCU comprise of integrated Active Tire Temperature Optimising System [ATTOS] and heating elements for maintaining the temperature according to control signal from TPOS. j. Each TPCU is represented by unique identification with which the TPOS identifies and communicate with accordingly. Tire Pressure Optimising System also accounts the replacement of tyres to precisely track the change of tires in scenarios of puncture, wear and tear thereby to control the TPCU accordingly. The system also optimises the tyre pressure on the spare tyre to match with other tyres in case of tyre changed according to scenarios. k. TPCU according to design, configuration and scenarios instantaneously controls the tire pressure in critical situations by controlling or transferring the fillers either from & to atmosphere else with inbuilt or external restoration systems or its combinations. l. TPCU according to design, configuration and scenarios utilise feasible internal or external reservoir or its combination for controlling the fillers thereby instantaneously controlling the tire pressure in critical situations. m. TPCU according to design, configuration and scenarios utilise feasible internal or external air compressor or its combination for controlling the fillers thereby instantaneously controlling the tire pressure in critical situations. n. The system also sense and prevents the over inflation of tires by releasing excess fillers thereby to maintain the set and optimum pressure according to control signal from TPOS. o. The wheels with TPCU system are constructed with weight balanced design or with counterweight and utilise internal and externally added weights [balance] to compensate the mass of the TPCU.
 5. The system said in claim 1, utilise correlation or lookup tables to actively check and compare the effects caused in actual real world scenarios with predetermined and tested real world scenarios to control and optimising the tyre pressure accordingly in critical situations. a. The correlation tables comprise of pressure values that lies between upper and lower cut-off tire pressure values designed and developed with corresponding change in vehicles load and centre of gravity thereby the TOPS system controls the tire pressure between upper and lower cut-off tire pressure values according to scenarios to mitigate critical situations while preventing the over inflation and deflation or tire deformation ultimately to sustain stability. b. The correlation table is designed and developed based on TPOS system designs, scenarios, configurations and parameters comprising of—sensor system, vehicle stability & safety systems, nature of breaking & break force, tires lower & upper cut-off threshold pressure values, sensing reservoirs and tires internal & external or environmental—pressure, temperature, moisture, humidity, vehicles speed, wheel speed, acceleration & deceleration, orientations & axial rotation [yaw, pitch and roll], load distribution [load on each wheel tire], torque distribution, vehicles suspension & vertical dynamic, transverse motion & lateral acceleration, tire traction Coefficient of Friction [COF], slip and slide angle, steering wheel position, cornering effects, change in centre of gravity, over & under steering, aqua or hydroplaning, tire specifications & parameters comprising of—size, type, load index, speed symbol or rating, thread wear & tear, traction & temperature rating, compound & material used, maximum load rating, maximum permissible inflation pressure, direction, dimension, patterns of treads, lugs, voids, sipes & groves, rim or wheel specifications, camber angle, wheel alignment & balancing, tires position or angle of attack, radars detecting objects with pre & current computing of tire pressure to assist in emergency breaking & stability based on range, direction and dimension of objects in and around the vehicle, sensing nature of tires present & impending contact area, GPS information to predict the turns, curves and bends on roads ahead and inter operating with vehicles existing stability & safety systems comprising of—ABS, EBD, ESC, TCS, Roll over mitigation systems, ECU, BA, Pre crash systems, suspension system, vertical dynamics & damping force, Sway or anti-roll or stabilizer bar, radar assisted auto breaking with partially & complete break to stop, Drivers reaction with evasion [evasive manoeuvre] of objects, automotive aerodynamics & airbrakes, Pre crash systems, Cruise or Adaptive Cruise Control with partial & full auto breaking. c. As various parameters and multiple critical situations are simultaneously taken into account by TOPS for computation, the table is designed and developed based on prioritising and balancing between one or more parameters and scenarios ultimately to achieve an optimised performance.
 6. The system said in claim 1, where the TPCU system comprise of one or more particularly high pressure fluid reservoirs [tank] for storing the fillers air and nitrogen are integrated or optimally located [mounted] on wheel's rim, spoke's, hub, axle with pneumatic valves and control unit for controlling the tire pressure in critical situations and optimising or restoring the tire pressure after overcoming the critical situations according to the control signal from TPOS. The reservoir systems operates without any compressor or similar systems as the pressure maintained in the reservoir is higher [multiple times] than the optimum tire pressure for the fluids or fillers to flow from reservoir to tire thereby controlling the tire pressure according to control signal form TPOS. a. The fillers in the reservoir [tank] are maintained with pressure higher [multiple times higher] than the upper cut-off tire pressure threshold value for the fillers to instantly flow from the reservoir to tires and the same is utilised for controlling the tire pressure according to control signal from TPOS. The fillers in the reservoir are restorable and restored through external means [similarly restored while filling the normal tire pressure]. b. The reservoir system comprises of failsafe and fail proof pneumatic valves system with actuators and utilise single to multiple internal and external, unidirectional and bidirectional, basic and electro pneumatic valves, valves with & without actuators, normally open & normally closed valves, dedicated & common valves for storing, controlling, optimising and restoring the tire pressure according to design, configurations and scenarios. The reservoir comprise of control system with internal pneumatic valve that connects the reservoir with tire internally for controlling the tire pressure and external valve for controlling as well as recharging the fillers. The system utilise either common or dedicated valves for controlling the tire pressure as well as restoring the fillers. The control valves are selected from pneumatic valves, electro pneumatic valve, mechanical valve, electro mechanical valve and its combinations. c. The reservoir system comprise of dedicated sensor system for sensing the pressure, temperature, moisture and humidity of the fillers available in the reservoir with status of the sensor system being updated to TPOS for computation and user display or interface. The TPOS also accounts the quantity of fillers available in the reservoir with sensor system parameters for the computations, controlling and restoring the tyre pressure. d. The system alerts the driver regarding lack of fillers and low pressure in reservoir. In scenarios of reservoir with not sufficient fillers or pressure the system alerts the driver regarding the same and works in default mode where the system won't utilise fillers in the reservoir to control the tire pressure. e. The reservoir utilise moisture control system to remove excess moisture and maintain optimum moisture level of fillers in reservoir thereby to achieve optimum TOPS operations. f. The reservoir system configurations comprise of dedicated inbuilt or integrated reservoir with TPCU on all the wheel tires, utilise common reservoir, utilise common reservoir for recharging the fillers of dedicated reservoir and its combinations for controlling and optimising the tire pressure. The system comprise of air filter and moisture control system to maintain the ideal state of fluids or fillers for achieving optimum performance. g. The reservoir system is optimally designed and integrated according design of wheels and are either fixed or interchangeable with the wheels. The TPCU system utilises either common or dedicated high pressure reservoir according to design and scenarios. h. Controlling of tire pressure with reservoir system is performed based on configurations comprising of releasing the fillers to atmosphere and controlling or restoring through fillers in the reservoir or else controlling through storing and restoring of fillers from and to reservoir according to design and scenarios. i. The system with dynamically controlling the tyre pressure through high pressure reservoirs are utilised on active vehicle protection in critical situations, dynamically increasing traction according to driving conditions, optimising stability, saving fuel and reducing tyre noise. The TPOS system utilise the fillers in the high pressure reservoir to optimise the tire pressure in under inflation scenarios.
 7. The system said in claim 1, where the TPOS instantaneously works in critical situation to reduce high speed and emergency breaking distance by actively sensing, computing and controlling the tire pressure from optimum or existing value to right pressure on right tires in right time ultimately to increase the rolling resistance, friction and controlling contact patch area thereby instantaneously improving traction while sustaining stability. The system maintaining the tires upper & lower cut-off threshold pressure values to prevent over and under inflation or tire deformation.
 8. The system said in claim 1, where the TPOS works in critical situations to instantaneously mitigate extreme loss of traction, skid and wheel spin on either one or multiple wheel tires by actively sensing, computing and controlling the tire pressure between or corresponding wheel tires in right time with right pressure thereby controlling the contact patch or foot print ultimately to restore and mitigate loss of traction.
 9. The system said in claim 1, where the TPOS works in critical situations to instantaneously mitigate hydroplaning or aquaplaning by actively sensing, computing and controlling (increasing) tire pressure on right tires with right pressure in right time while maintaining the tires upper cut-off threshold pressure value thereby thinning the contact path surface area of tire to avoid water deflected inwards, increasing the tires grooves & thread depth to deflect more water outward ultimately helping in clearing water which in turn prevents the rising of tires thereby to mitigate hydroplaning.
 10. The system said in claim 1, where the TPOS works in critical situations to instantaneously mitigate over and under steering by actively sensing, computing and controlling the tire pressure in right time with right pressure on right tires thereby controlling thread depth, enhancing traction, controlling contact patch or foot print area, controlling tires cornering stiffness and controlling tire deformation rate thereby mitigating positive and negative gradient to sustain zero or neutral gradient.
 11. The system said in claim 1, where the TPOS works in critical situations to mitigate roll over and loss of stability for the vehicle moving in highly uneven, leaning, slope surfaces, vehicle experience extreme cornering force [high speed] where the vehicle tends to move beyond available stability systems limits that can leads to loss of stability by actively sensing and instantaneously controlling the tyre pressure on right tires with right pressure in right time thereby to restore stability, centre of gravity and traction.
 12. The system said in claim 1, where the TPOS works in critical situations to mitigate the loss of control and stability in puncture scenarios [besides alerting the driver regarding rapid loss of pressure in puncture scenarios] by actively sensing and instantaneously supplying the fillers [air or nitrogen] from the reservoir or tank to the punctured tires thereby to sustain the pressure preventing the rapid loss of tire pressure ultimately improving the time of drivability and stability of the vehicle. a. In puncture scenarios the TPOS system also controls the pressure on other tires accordingly to enhance the drivability and stability of the vehicle, b. In puncture scenarios the TPOS system also controls [reduce] the pressure on other tires accordingly to increase the rolling resistance thereby reducing the breaking distance of vehicles in high speeds scenarios. The present system actively works to control tire pressure ultimately to control the rolling resistance and traction of the other tires in accordance with punctured tires to mitigate difference in rolling resistance and traction levels.
 13. The system said in claim 1, the TPOS instantaneously works to enhance extreme and high speed—cornering [hard cornering] performance, torque vectoring and handling characteristic by instantaneously sensing, computing and controlling the tire pressure in right time with right pressure on right tires thereby assist in enhancing sharp cornering characteristic through preventing and controlling tires sidewall deformation and contact patch area while simultaneously providing traction and stability.
 14. The system said in claim 1, TPOS system vary, control and optimise the tire pressure according to driving modes like comfort, comfort+, standard, economic, sport, sport+ mode to enhance the comfort level, performance, improving fuel efficiency thereby reducing effect on environment according to modes, controlling tire noise and in addition works irrespective of modes to instantaneously control the tire pressure accordingly to mitigate critical situations. According to design, configuration and scenarios the TPOS system either controls the tire pressure by releasing the fillers to atmosphere or utilise inbuilt reservoir or other external restoration systems or its combinations.
 15. The system said in claim 1, TPOS system vary, control and optimise the tire pressure according to change in centre of gravity and load on each wheel tires by sensing, computing and controlling or optimising the tires accordingly to enhance vehicle stability and handling characteristic.
 16. The system said in claim 1, utilise TPCU integrated with Active Tire Temperature Optimiser that works to control and maintain the tire temperature and pressure according to change in temperature of weather or environment and critical situations thereby actively controlling the tires property, softening, hardening or solidification, controlling contact patch area and sidewall deformation rate ultimately to enhance tire traction, stability, reduce breaking distance, enhance cornering & handling characteristics, mitigate hydroplaning, mitigate over steering and under steering. The ATTOS controls the tire temperature instantaneously in critical situation or continuously according to design, configuration and scenarios. The ATTOS works in both pneumatic and non pneumatic tires. ATTPOS operate in standalone mode or interoperate the TPOS taking status of power backup in to account. a. The system utilise smart and adaptive closed loop algorithm with correlation or lookup tables to actively check and compare the effects caused in actual real world scenarios with predetermined and tested real world scenarios thereby to control and optimising the tyre temperature and pressure according to design, configuration and scenarios. b. The system controls the tire temperature either instantaneously in critical situations or continuously according to design, configuration and scenarios. c. The ATTOS operate in standalone mode interoperate with vehicles safety and stability systems or its combinations according to design, configurations and scenarios to enhance traction and stability. d. The system utilise one or more or combination of internal or external power source according to design, configurations and scenarios for controlling and maintaining the temperature. The ATTOS operate in standalone mode with either dedicated power source or interoperate with vehicle power source or its combinations taking status power backup in to account. e. The Tire Temperature Optimising System (TTOS] works with and utilise either one or combination of direct and indirect heating techniques that comprise of thermal conduction, diffusion, convection, radiation and advection to generate, control and maintain the tire temperature. Energy transfer and heating elements are optimally integrated in wheels, tires, hub, axle, suspension and vehicles chassis. The direct heating works utilising heating elements and the indirect heating generate and maintain temperature through heating fillers or fluids & principle of electromagnetic induction heating that operates irrespective of vehicle in stationary or motion according to design, configurations and scenarios. The system make use of Induction heating coil and materials that support electromagnetic induction to generate heat are utilised in tire manufacturing that comprises one or combination of ferromagnetic metals, ferromagnetic alloys and other suitable metals or element in tires, radial tires, plies and steel belted tires thereby to precisely transfer the heat to contact path or foot print area simultaneously saving power. Either dedicated heating element or the plies or belts with suitable material is utilised for induction heating. f. The system accounts status of power source, sensor system parameters, heating element, change in temperature, moisture & pressure of tires and environment, driving modes, rim or wheel and tire specification & parameters comprising of—size, type, load index, speed symbol or rating, thread wear & tear, traction & temperature rating, tires dimension, direction, nature of compound & material used, maximum load rating, maximum permissible inflation pressure, patterns of treads, lugs, voids, sipes & groves, vehicle safety and stability systems, change in temperature, pressure, moisture and humidity of fillers in reservoirs and compressors for actively sensing, computing and controlling the tire temperature. g. The user configurable system maintains temperature either automatically or manually according to design, configurations and scenarios.
 17. The system said in claim 1, where the TPOS utilise inbuilt sensor system to actively scan, sense, compute and alerts the driver irrespective of vehicles in motion or stationary regarding structural damage on wheels or rims comprising of bends & cracks and potentially hazardous foreign objects [E.g. stones] stuck in tires based on its nature, dimension & depth of penetration, tires wear & tear, tire cuts, bulges, sidewall damages, slow puncture with corresponding tires location & position. a. The system utilise smart and adaptive closed loop processing algorithm with correlation or lookup tables to actively check and compare the effects caused in actual real world scenarios with predetermined and tested real world scenarios for precisely sensing, comparing, computing and alerting the driver in advance regarding the potentially hazardous critical situations. The system works based on online and preloaded wheel or rim specifications, balancing beads, tire specifications & parameters comprising of—size, type, load index, speed symbol or rating, thread wear & tear, traction & temperature rating, compound & material used, maximum load rating, maximum permissible inflation pressure, patterns of treads, lugs, voids, sipes & groves. b. The system utilise one or more optimally located internal and external sensors or sensor arrays on wheel tires and vehicle for scanning comprising of distance or range sensors, visual cameras, IR sensors & cameras, acoustic or ultrasonic sensor, electromagnetic sensors, electrostatic sensors, inductive sensors, capacitive sensors, echo sensors, thermal sensors for scanning & detecting wheels, balancing beads and tire parameters comprising of specifications, change in properties [nature], patterns, direction, dimension, positions, multi layers and range. c. The system works by sensing wheel specifications and nature or property of tyres and foreign objects comprise of permittivity-∈, permeability-μ, conductivity-σ, susceptibility, dielectric, capacitive sensing, capacitive displacement sensing, inductive sensing.
 18. The system said in claim 1, where the TPOS system works with all types of pneumatic tyres comprising of tubeless tires, non tubeless or tires with tubes, non pneumatic tires, Run Flat Tyres [RFT], wet tyres, Dry tyres, Soft & hard compound tyres, slick tires, intermediate tires, summer and winter tyres with various patterns off treads, lugs, voids, grooves, sipes, beads, sidewalls, shoulders, plies.
 19. The system said in claim 1, the Tyre Pressure Optimising System works with all type of vehicles with single to multiple pneumatic tyres utilising air, nitrogen or other suitable fillers [Motor cycles, cars, Van's, SUV's, cross over, Bus's, Truck's or Lome's, aircraft's etc].
 20. The system said in claim 1, works in critical situation with following configurations comprising of one or combination of with reservoir, without reservoir and appropriate compressor systems. a. TPOS that works in critical situations with reservoir by utilising the high pressure fillers in the reservoir to control the tire pressure. The fillers in the reservoir have to be restored from external sources. b. TPOS that works in critical situations without reservoir or compressor by just releasing the fillers in the tires to atmosphere and the tire pressure have to be restored through external sources. c. TPOS that works in critical situations with appropriate compressor systems available with vehicles existing inflation systems in critical situations.
 21. The system said in claim 1, where the TPOS instantaneously works in extreme worst case scenarios—malfunction, partial or complete failure of vehicle safety and stability system comprising of failure of breaks, Traction Control System, rollover mitigation system; the onboard system automatically sense the failure to trigger TPOS or the TPOS system is manually triggered to instantaneously control the tire pressure in right tires with right pressure in right time for increasing the friction, traction, rolling resistance and compensating or mitigating the difference in rolling resistances ultimately to reduce the stopping distance while simultaneously sustaining the vehicle stability, drivability and steerability. The system utilise sensor system and radar system to automatically sense control the tire pressure according to scenarios. The system assists in break—failure or malfunction that comprising of partial or complete break failure and either one or multiple break failure; while maintaining the tires upper & lower cut-off threshold pressure values to prevent over and under inflation or tire deformation.
 22. The system said in claim 1, comprises of TPCU integrated with appropriate compressor or pump powered by kinetic break energy—in combination with high pressure fluid reservoir to recharge reservoir fluid and in turn the reservoir restores the tyre pressure or without high pressure reservoir system for directly recharging tire pressure or its combinations thereby autonomously works to restore and optimise the tyre pressure ultimately to provide maintenance free operation of tires. The system interoperates with TPOS where the compressor and [or] pump system works based on either one or combination of following according to design, configurations and scenarios a. Pump or [&} Compressor system works with high pressure reservoir system to recharges, restore and optimise reservoir pressure, in turn the reservoir recharges, restore and optimise the tire pressure. b. Pump or [&] Compressor system works without high pressure reservoir system by directly recharging, restoring and optimising the tire pressure. c. The system utilise Kinetic break energy generated during breaking which is either converted into electrical energy or converted into mechanical energy or its combinations according to design, configurations and scenarios and are utilised to run the pump or compressor ultimately for recharging, restoring and optimising the tyre pressure and the reservoir pressure. d. The whole system smartly monitors, senses, computes and operates in optimal or right energy band and conditions to utilise the kinetic break energy based on sensor system parameters, thereby efficiently handling lower and higher or excessively generated kinetic break energy. The computation is performed based on intensity or level or magnitude of kinetic break energy, reservoir's and tyre's—internal and external pressure, temperature and moisture, engine and vehicle's running conditions thereby accordingly computes, runs and controls the pump or compressor [DEL—pneumatic valves] ultimately to recharge, restore and optimise the reservoir pressure and tire pressure. e. The fail safe and fail proof pneumatic and [or] electro pneumatic valves with pump & [or] compressor are utilised to ensure safe operations in the event of failure [by operating in failsafe mode and default mode]. Over Pressure release valve or electro pneumatic valve works to release over pressure in reservoir and tires. Either dedicated over pressure protection valve or electro pneumatic valve or its combination is also used.
 23. The system said in claim 1, comprises of TPCU utilising kinetic break energy to run the pneumatic valves thereby to control or transfer the fluid [air, nitrogen etc] flow from & to or between atmosphere, pump, compressor, reservoirs and tires or its combinations according design, configuration, requirement and scenarios ultimately to restore and optimise the tyre and reservoir pressure. The system monitors and computes the kinetic or break energy that is sufficient to run or operate the pneumatic valves. The TPOS and TPCU controls the operation of pneumatic valves based on either one or combination of following according to design, configurations and scenarios a. The system utilise Kinetic break energy generated during breaking which is either converted into electrical energy or converted into mechanical energy or its combinations according to design, configurations and scenarios and are utilised to run and control the pneumatic valves b. The whole system smartly monitors, senses, computes and operates in optimal or right energy band and conditions to utilise the kinetic break energy based on sensor system parameters, thereby efficiently handling lower and higher or excessively generated kinetic break energy. The computation is performed based on intensity or level or magnitude of kinetic break energy, reservoir's and tyre's—internal and external pressure, temperature and moisture, engine and vehicle's running conditions thereby accordingly computes, runs and controls the pneumatic valves. c. The system utilise fail safe and fail proof Electro-Mechanical Pneumatic Valves that acts in default operation or valve mode with basic valve functionality to ensure safe operation in case of failure.
 24. The system said in claim 1, comprise of one or more or combination of internal and external, fixed or replaceable power source for TPOS and TPCU's operation are selected from TPCU's inbuilt batteries, primary or rechargeable batteries, capacitors and vehicle batteries according to design, configurations and scenarios. a. The power source is wired or wireless or its combinations and the charging sources for the TPCU's inbuilt battery and capacitor are sourced from vehicle battery, external charging systems, internal self charging systems with feasible alternator or generator, piezoelectric effect, capacitive coupling, inductive coupling, electromagnetic coupling, kinetic break energy. b. The system smartly manages the charging and backup [E.g. under & over charging protection] of the power levels with updating & alerting the status of power source to TPOS, display and user interface. c. The system tap's the required power for its operation according to vehicle's running conditions and engine parameters [E.g. like vehicle running down the slope or declined roads with excess speeds where the cruise control system control the excess speed to maintain preset speed]. d. The system utilise Kinetic break energy generated during breaking which is either converted into electrical energy or converted into mechanical energy or its combinations according to design, configurations and scenarios and are utilised to run the pump, compressor and pneumatic valves ultimately to recharge, restore and optimise the tyre pressure and the reservoir pressure. 